Flexible Electronics

Most robots rely heavily on cameras and external tracking systems to understand their surroundings and control movement. But in cluttered, dark, or visually degraded...

Collecting data in the Arctic is often as challenging as the research itself. Beneath seemingly solid snow can lie hidden pools of icy water,...

Apco Aviation Defense is a graduate of the INNOFENSE Innovation Center operated by iHLS in collaboration with IMoD. This unique acceleration program removes entrance barriers to...

Legged robots have become increasingly capable in recent years, but most advanced quadruped systems remain expensive, complex, and difficult for students, hobbyists, and researchers...

Designing underwater robots that can move efficiently and adapt to changing currents remains a complex challenge. Traditional systems rely on external sensors and pre-programmed...

Traditional robots are typically built around rigid frames, motors, gears, and joints. While this design works well in structured environments, it becomes less effective...

Drones have become valuable tools for inspection, emergency response, industrial monitoring, and aerial reconnaissance. Yet even advanced platforms often struggle in confined environments filled...

Engineers have long looked to origami and kirigami for inspiration when designing lightweight structures that can transform shape without relying on complex mechanical systems....

Soft robots are often praised for their flexibility, safety, and ability to interact with delicate environments. But many of these systems still depend on...

Chronic wounds remain one of the more difficult problems in regenerative medicine. In many cases, the body fails to maintain the immune and signaling...

Most robots are designed around familiar biological forms. Engineers often model machines after humans, dogs, insects, or other animals, relying on centralized software and...

Foldable structures are widely used in engineering because they can transform from compact flat sheets into larger three-dimensional forms. But most existing designs face...

Coordinating large groups of robots usually requires complex software, wireless communication, and centralized control systems. But these approaches can become fragile in unpredictable environments...

Robots have become increasingly capable in controlled environments, but they still struggle to replicate the adaptability and precision seen in animals. Biological movement relies...

Long-range strike capabilities often face a trade-off between endurance, precision, and survivability. Systems that can reach distant targets may depend heavily on satellite navigation,...

Designing materials that can actively change shape or function on demand remains a major challenge. Most artificial actuators rely on motors, wiring, or external...

Robots are increasingly expected to operate in confined and complex environments, from industrial machinery to medical procedures inside the human body. Traditional robotic arms,...

Traditional drones rely on a simple principle: to move forward, they must tilt. This dependence on body orientation limits maneuverability, slows response time, and...

The push toward more sustainable drone designs has introduced a less obvious technical challenge: materials matter. While bamboo offers clear advantages as a lightweight,...

Soft robots are often designed for a single task. Once their structure and internal wiring are set, their range of motion is fixed, limiting...

Conventional drones rely on spinning propellers to generate lift and maneuver in the air. While effective, this approach has limitations, especially in tight, cluttered,...

Soft robots are often seen as a promising solution for operating in delicate or constrained environments, but they come with a key limitation: movement....